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May 18, 2026

Battle-Testing Enterprise AI Agents: Veris AI × AWS Bedrock AgentCore

Victor Shih
Battle-Testing Enterprise AI Agents: Veris AI × AWS Bedrock AgentCore

A practical guide to shipping enterprise agents that work: using AWS Bedrock AgentCore to build and deploy, and Veris AI to simulate, grade, and improve.

Overview

Building an enterprise AI agent is a two-part problem:

  1. Get it to production: runtime, scaling, auth, tool integration, observability.
  2. Make sure it's actually ready: coverage, safety, edge cases, regressions.

AWS Bedrock AgentCore solves the first half. Veris AI solves the second. Together they give enterprise teams a workflow that goes from a five-line scaffold to a battle-tested production agent, without "release-and-pray" rollouts or production data leaving your environment.

This doc walks through the problem, the joint workflow, a worked example (a Medical Triage Agent on AWS HealthLake), and how the same pattern applies to any enterprise agent.

The Problem: Why Enterprise Agents Don't Ship

Most agent teams today follow the same loop: small controlled rollout, hope nothing breaks, then gradually expand. That works for consumer toys. It does not scale for enterprise, for three reasons.

1. Sensitive data

Enterprise agents touch PHI, PII, financial records, internal documents, customer contracts. You cannot afford to find out in production that the agent leaks data, hallucinates a record, or mishandles a privileged workflow. You need confidence before the first real user.

2. Missed edge cases

You can write a handful of manual test cases. You cannot manually anticipate the full distribution of real user behavior: phrasing variations, partial information, contradictory instructions, adversarial inputs. The edge cases you don't think of are the ones that break in production.

3. Slow iteration

Real enterprise integrations like Epic/FHIR, Salesforce, payment APIs, and internal services are slow and risky to test against. Sometimes you literally cannot test against them. Every iteration cycle is gated on access, data setup, and side-effect cleanup. Improvements stall.

The net effect: teams ship under-tested, then either firefight in production or never roll out broadly enough to matter.

How Veris AI and AgentCore Fit Together

AWS Bedrock AgentCore handles build and deploy; Veris AI handles test and improve; both feed into production.

AgentCore handles the production path. You write your agent logic; AgentCore handles the container, runtime, identity, networking, scaling, and tool auth.

Veris AI handles the readiness path. You hand Veris AI the same agent code. Veris AI wraps it in a sandbox that mocks every service it depends on, simulates the users it will talk to, generates a comprehensive scenario set, runs everything in parallel, grades the results, and returns specific fixes.

Worked Example: A Medical Triage Agent

To make this concrete, here is an end-to-end example using a healthcare agent that hits every enterprise pain point.

What it does:

  • Reads from a FHIR database (AWS HealthLake)
  • Patient intake and identification
  • Symptom gathering and assessment
  • Medical chart review
  • Specialist recommendation
  • Appointment scheduling

Why it's hard:

  • Sensitive PHI
  • Multi-step, stateful workflows
  • Real enterprise integration
  • Safety-critical: bad advice causes real harm

Step 1: Build and deploy with AgentCore

The entire scaffold is roughly five lines:

from bedrock_agentcore.runtime import BedrockAgentCoreApp

app = BedrockAgentCoreApp()

@app.entrypoint
def invoke(payload):
    return agent.run(payload["prompt"])

@app.websocket
async def chat(ws):
    ...

@app.entrypoint and @app.websocket turn your agent into a deployable, stateful service with HTTP and WebSocket endpoints out of the box: no server code, no load balancer config.

Local dev and deployment use the same CLI:

agentcore dev -p 8088                 # run locally
agentcore invoke --dev --port 8088    # hit it with a prompt
agentcore deploy                      # ship to production

agentcore deploy packages the container, pushes it to Bedrock, wires up the IAM task role, and exposes the production endpoint. Every redeploy lands in the same environment, so iteration is fast and predictable.

Step 2: Integrate enterprise services

Tools are just decorated Python functions:

@agent.tool
def search_patient(name: str, dob: str) -> Patient: ...

@agent.tool
def get_conditions(patient_id: str) -> list[Condition]: ...

@agent.tool
def book_referral(patient_id: str, specialty: str) -> Appointment: ...

The Medical Triage Agent exposes nine such tools, all backed by AWS HealthLake. AgentCore's runtime handles SigV4 signing and IAM at the task-role level. No API keys in env vars, no custom auth code, no IAM plumbing in the agent itself.

Step 3: The "now what?" moment

The agent is live. You can hit it in the AgentCore console. But how do you actually test it? Two bad options:

  • Release into production and watch real users: the loop we wanted to avoid.
  • Build your own synthetic harness: seed FHIR with patients, hand-write conversation flows, invoke one by one. Weeks of work, narrow coverage.

Veris AI is the third option.

Step 4: Deploy into the Veris AI sandbox

You wrap the same agent in a Dockerfile and point it at Veris AI-mocked services. The agent's code is identical to production; only its dependencies are swapped for stateful simulations:

  • Simulated FHIR: behaves like HealthLake, but seeded from scenario state.
  • Simulated users: talk to your agent over the same WebSocket channel production uses.
  • Veris AI engine: orchestrates scenarios, drives the conversations, captures traces.

No production APIs touched. No real patient data. Every service the agent depends on still behaves like the real thing.

Step 5: Generate scenarios

Veris AI reads the agent's code, understands its tools, and generates a comprehensive scenario set covering every tool and every meaningful path. You can steer it toward happy paths, edge cases, adversarial inputs, or specific categories.

For the triage agent: 25 scenarios spanning routine appointments to emergency escalations, with 100% tool coverage. Scenarios at this breadth are nearly impossible to write by hand.

Step 6: Run the simulation

Scenarios run in parallel. Twenty-five scenarios finish in roughly the same wall-clock time as one. For each scenario you get:

  • Full trace: every user turn, every tool call, every agent response.
  • Per-scenario success checks: pass/fail against the scenario's intent.
  • Cross-scenario graders: aggregate scores on the dimensions you care about (safety, accuracy, escalation behavior, etc.).

When something fails, the trace tells you exactly where.

Veris AI dashboard showing an in-progress simulation run with scenarios executing in parallel and live traces.
A simulation run in the Veris AI dashboard: scenarios executing in parallel, traces captured live.

Step 7: Report and suggested fixes

The end-of-run report includes:

  • Overall pass rate and grader breakdowns per category.
  • Coverage view: which scenarios tested which behaviors, and where coverage is thin.
  • Specific failure clusters: e.g., "5 scenarios covered emergency escalation; about half failed."
  • Suggested fixes in two flavors:
    • Prompt fixes: concrete system-prompt changes.
    • Harness fixes: add a tool, tighten a docstring, refine a parameter schema.

The fixes are integration-ready. The same simulation data can also feed downstream model tuning (SFT, RL).

Veris AI results page showing pass rates, grader breakdowns, coverage view, and suggested fixes for a completed run.
End-of-run report: pass rates, grader breakdowns, and suggested fixes.

Step 8: Iterate and compare

Every change runs as a candidate against the production baseline. Side-by-side comparison: green for improvements, red for regressions, column by column. Catch problems before merge, not after deploy. Runs fit naturally into CI: every commit, nightly, or on-demand.

Results

Going through this loop on the Medical Triage Agent produced a few outcomes worth calling out:

  • From "untestable" to fully covered. A FHIR-backed clinical agent that previously could only be smoke-tested manually now runs against hundreds of scenarios with 100% tool coverage.
  • Real edge cases surfaced before production. Emergency-escalation behavior, a safety-critical path, failed on a meaningful fraction of scenarios that would not have appeared in hand-written tests.
  • Iteration cycles measured in minutes, not weeks. Parallel execution + simulated services collapse the test loop. Twenty-five scenarios run in the time one used to take against real systems.
  • No production data exposure. Every test ran against simulated patients in a Veris AI-managed sandbox. No PHI, no compliance review per cycle, no production blast radius.
  • Regressions caught at the PR, not the incident. Side-by-side candidate-vs-baseline runs flag behavioral regressions before code merges.

How This Extends to Other Enterprises

The Medical Triage Agent is one shape of a general pattern. Any enterprise agent that depends on:

  • Sensitive or regulated data (PHI, PII, financial, legal, HR)
  • Real enterprise integrations (CRMs, ERPs, ticketing, payments, internal APIs)
  • Multi-step or stateful workflows
  • Safety- or revenue-critical decisions

...has the same shape of problem and the same shape of solution.

Examples across verticals

Industry Agent Sensitive surface Integration to mock
HealthcareTriage, prior auth, schedulingPHIFHIR / HealthLake / EHR
Financial svc.KYC, dispute resolution, opsPII, account dataCore banking, fraud APIs
InsuranceClaims intake, adjudicationClaims, medical recordsPolicy / claims systems
Customer opsTier-1 support, returnsCustomer + order dataCRM, OMS, payments
Internal opsIT helpdesk, HR, procurementEmployee data, contractsServiceNow, Workday
SalesProspecting, deal-deskPipeline, pricingSalesforce, CPQ

The pattern is the same in every row:

  1. Build on AgentCore. Five lines of scaffolding, decorated tools for each enterprise integration, IAM and identity handled by the runtime, one-command deploy.
  2. Sandbox with Veris AI. Same agent, mocked services, simulated users, generated scenarios, graded runs, suggested fixes.
  3. Promote with confidence. Compare candidate vs. baseline on every change. Ship when the regression panel is clean.

What you don't have to build

When teams try to do this in-house, they typically end up writing:

  • A synthetic data layer for each enterprise dependency
  • A simulated user driver per channel (chat, voice, ticket)
  • A scenario generator that actually covers their tool surface
  • Graders for each behavior they care about
  • A diffing layer for candidate-vs-baseline regression checks
  • CI plumbing for all of the above

Veris AI ships those components. AgentCore ships the production runtime. Your team writes the agent.

Getting Started

Spin up an account and run your first simulation at console.veris.ai.

From there:

  1. Stand up the agent on AgentCore. Wrap your invoke function with @app.entrypoint, decorate your tools, and agentcore deploy.
  2. Hand it to Veris AI. Same code, same Dockerfile. Point at the Veris AI-mocked versions of your enterprise services via console.veris.ai.
  3. Generate scenarios, run, read the report. Apply prompt and harness fixes.
  4. Wire it into CI. Every PR runs candidate-vs-baseline before merge.

The result: an agent that's been through hundreds of realistic conversations, with edge cases caught, fixes verified, and zero exposure to real production systems or customer data, before it ever talks to a real user.

That's the joint promise. AgentCore gets your agent out there. Veris AI makes sure it's actually ready.

Get started

Or book a demo at veris.ai.